An Automated Algorithm for Constructing Maps of Defects in Active Thermal Testing; Russian Journal of Nondestructive Testing; Vol. 55, iss. 8

An Automated Algorithm for Constructing Maps of Defects in Active Thermal Testing; Russian Journal of Nondestructive Testing; Vol. 55, iss. 8

Detalhes bibliográficos
Parent link:	Russian Journal of Nondestructive Testing Vol. 55, iss. 8.— 2019.— [P. 617-621]
Autor principal:	Chulkov A. O. Arseniy Olegovich
Autores corporativos:	Национальный исследовательский Томский политехнический университет Инженерная школа неразрушающего контроля и безопасности Центр промышленной томографии Научно-производственная лаборатория "Бетатронная томография крупногабаритных объектов", Национальный исследовательский Томский политехнический университет Инженерная школа неразрушающего контроля и безопасности Центр промышленной томографии Научно-производственная лаборатория "Тепловой контроль"
Outros Autores:	Nesteruk D. A. Denis Alekseevich, Vavilov V. P. Vladimir Platonovich
Resumo:	Title screen The algorithm makes it possible to simplify the procedure for processing results of the thermal testing aimed at both revealing latent defects and evaluating their transverse dimensions and shape. Applying this algorithm requires certain participation and experience of the thermography operator, as well as preliminary preparation of initial data by using techniques that increase the signal-to-noise ratio. The algorithm includes selection of defective zones on the thermogram of the test object, automated identification of points with extreme signals, and a pixel-by-pixel threshold analysis of the zones adjacent to these points, culminating in the construction of binary defect maps. Режим доступа: по договору с организацией-держателем ресурса
Idioma:	inglês
Publicado em:	2019
Assuntos:	электронный ресурс труды учёных ТПУ infrared thermography thermal testing transverse defect size automated testing composite materials инфракрасная термография тепловые испытания размеры дефекты автоматизированное тестирование композитные материалы
Acesso em linha:	https://doi.org/10.1134/S1061830919080035
Formato:	Recurso Eletrônico Capítulo de Livro
KOHA link:	https://koha.lib.tpu.ru/cgi-bin/koha/opac-detail.pl?biblionumber=663950

Registros relacionados

Comparing the Efficiency of Ultrasonic Infrared Thermography under High-Power and Resonant Stimulation of Impact Damage in a CFRP Composite; Russian Journal of Nondestructive Testing; Vol. 54, iss. 5
Publicado em: (2018)

Methodology of processing experimental data in transient thermal nondestructive testing (NDT); Thermosense XVII, Orlando, FL, United States, April 17, 1995
Publicado em: (1995)

Crawling spot thermal nondestructive testing (NDT) for plaster inspection and comparison with dynamic thermography with extended heating; Thermosense XVII, Orlando, FL, United States, April 17, 1995
Publicado em: (1995)

Noise-limited thermal/infrared nondestructive testing; NDT & E International; Vol. 61
por: Vavilov V. P. Vladimir Platonovich
Publicado em: (2014)

Enhancing Generalizability of a Machine Learning Model for Infrared Thermographic Defect Detection by Using 3D Numerical Modeling; Fracture and Structural Integrity; Vol. 18, iss. 70
por: Chulkov A. O. Arseniy Olegovich
Publicado em: (2024)

Analyzing efficiency of optical and THz infrared thermography in nondestructive testing of GFRPs by using the Tanimoto criterion; NDT & E International; Vol. 117
Publicado em: (2021)

Automated procedure for detecting and characterizing defects in GFRP composite by using thermal nondestructive testing; Infrared Physics and Technology; Vol. 114
Publicado em: (2021)

Analyzing probability of detection as a function of defect size and depth in pulsed IR thermography; NDT & E International; Vol. 130
Publicado em: (2022)

The multi-dimensional ensemble empirical mode decomposition (MEEMD); Journal of Thermal Analysis and Calorimetry; Vol. 128, iss. 3
Publicado em: (2017)

Peculiarities of detecting hidden corrosion in thick metals by transient IR thermography; Thermosense XXVIII,Orlando, Kissimmee, April 17, 2006
Publicado em: (2006)

Detecting Delaminations in Semitransparent Glass Fiber Composite by Using Pulsed Infrared Thermography; Journal of Nondestructive Evaluation; Vol. 39, iss. 3
Publicado em: (2020)

Nondestructive testing of composite T-Joints by TNDT and other methods; Polymer Testing; Vol. 94
Publicado em: (2021)

Thermal nondestructive testing of corrosion in aviation aluminum panels and data processing algorithms; Jixie Gongcheng Xuebao/Journal of Mechanical Engineering; Vol. 45, iss. 3
Publicado em: (2009)

Thermographic Non-Destructive Evaluation for Natural Fiber-Reinforced Composite Laminates; Applied Sciences; Vol. 8, iss. 2
Publicado em: (2018)

Optical and Mechanical Excitation Thermography for Impact Response in Basalt-Carbon Hybrid Fiber-Reinforced Composite Laminates; IEEE Transactions on Industrial Informatics; Vol. 14, iss. 2
Publicado em: (2018)

Advanced modeling of thermal NDT problems: from buried landmines to defects in composites; Thermosense XXIV, Orlando, April 01, 2002
por: Vavilov V. P. Vladimir Platonovich
Publicado em: (2002)

A pessimistic view of the energy auditing of building structures with the use of infrared thermography; Russian Journal of Nondestructive Testing; Vol. 46, iss. 12
por: Vavilov V. P. Vladimir Platonovich
Publicado em: (2010)

On the choice of the optimal algorithm for the processing of infrared thermograms in active thermal testing; Russian Journal of Nondestructive Testing; Vol. 49, iss. 11
por: Vavilov V. P. Vladimir Platonovich
Publicado em: (2013)

Non-contact one-sided evaluation of hidden corrosion in metallic constructions by using transient infrared thermography; Revista de Metalurgia (Madrid); Vol. SPEC
por: Vavilov V. P. Vladimir Platonovich
Publicado em: (2003)

Infrared Thermography and Generation of Heat under Deformation of Bioinert Titanium- and Zirconium-Based Alloys; Russian Journal of Nondestructive Testing; Vol. 55, iss. 7
Publicado em: (2019)

Analyzing patterns of heat generated by the tensile loading of steel rods containing discontinuity-like defects; International Journal of Damage Mechanics; Vol. 27, iss.6
por: Moyseychik E. Eugeny
Publicado em: (2017)

An apparatus for the active thermal testing of corrosion in steel cylindrical containers and test results; Russian Journal of Nondestructive Testing; Vol. 49, iss. 11
Publicado em: (2013)

Infrared Thermographic Testing of Steel Structures by Using the Phenomenon of Heat Release Caused by Deformation; Journal of Nondestructive Evaluation; Vol. 37, iss. 2
por: Moyseychik E. Eugeny
Publicado em: (2018)

Thermal tomography characterization and pulse-phase thermography of impact damage in CFRP, or why end users are still reluctant about practical use of transient IR thermography; Thermosense XX, Orlando, April 13, 1998
Publicado em: (1998)

Characteristic Features of Ultrafine-Grained Ti-45 wt.% Nb Alloy under High Cycle Fatigue; Materials; Vol. 14, iss. 18
Publicado em: (2021)

An Automated Practical Flaw-Identification Algorithm for Active Thermal Testing Procedures; Russian Journal of Nondestructive Testing; Vol. 54, iss. 4
por: Chulkov A. O. Arseniy Olegovich
Publicado em: (2018)

Evaluating quality of marquetries by applying active IR thermography and advanced signal processing; Journal of Thermal Analysis and Calorimetry; Vol. 143, iss. 5
Publicado em: (2020)

Detection of hidden corrosion in metals by using transient infrared thermography; Insight: Non-Destructive Testing and Condition Monitoring; Vol. 40, iss. 6
por: Vavilov V. P. Vladimir Platonovich
Publicado em: (1998)

Inspecting smokestacks by IR thermographic surveying and heat conduction modeling; Thermosense XXIII, Orlando, April 16, 2001
por: Vavilov V. P. Vladimir Platonovich
Publicado em: (2001)

Detecting Low-Energy Impact Damages in Carbon-Carbon Composites by Ultrasonic Infrared Thermography; Russian Journal of Nondestructive Testing; Vol. 53, iss. 7
Publicado em: (2017)

Influence of Zr-1 wt.% Nb alloy structure state on its deformation and thermal behavior under quasi-static tension; Materials Letters; Vol. 285
Publicado em: (2021)

Active Thermal Testing of Delaminations in Heat-Shielding Structures; Russian Journal of Nondestructive Testing; Vol. 55, iss. 3
por: Chulkov A. O. Arseniy Olegovich
Publicado em: (2019)

Research on the processes of deformation and failure in coarse- and ultrafine-grain states of Zr1–Nb alloys by digital image correlation and infrared thermography; Materials Science and Engineering: A; Vol. 784
Publicado em: (2020)

Study on Detection Limit of Buried Defects in Concrete Structures by Using Infrared Thermography; Key Engineering Materials; Vol. 270-273
por: Kamoi A. Arao
Publicado em: (2004)

Characterising Hidden Defects in GFRP/CFRP Composites by using Laser Vibrometry and Active IR Thermography; Nondestructive Testing and Evaluation; Vol. 37, iss. 6
Publicado em: (2022)

Comparative analysis of optical and ultrasonic stimulation of flaws in composite materials; Russian Journal of Nondestructive Testing; Vol. 46, iss. 2
por: Vavilov V. P. Vladimir Platonovich
Publicado em: (2010)

Noise suppression in pulsed IR thermographic NDT: Efficiency of data processing algorithms; NDT & E International; Vol. 148
Publicado em: (2024)

Thermal Testing of Corundum Ceramics: Pulsed Heating and Optimized Data Processing Algorithms; Russian Journal of Nondestructive Testing; Vol. 60, iss. 9
Publicado em: (2024)

Active IR Thermography Evaluation of Coating Thickness by Determining Apparent Thermal Effusivity; Materials; Vol. 13, iss. 8
Publicado em: (2020)

Ermanno Grinzato’s contribution to infrared diagnostics and nondestructive testing: in memory of an outstanding researcher; Quantitative InfraRed Thermography Journal; Vol. 21, iss. 6 : (2012 - 2022) In memory of Dr. Ermanno Grinzato: a landmark in Quantitative InfraRed Thermography. Guest Editors: Paolo Bison, Xavier Maldague, Stefano Sfarra, Vladimir Vavilov
por: Vavilov V. P. Vladimir Platonovich
Publicado em: (2024)